Cognitive Science 301
Applied Cognitive Science and
Education
Fall 2006
Mathematics, Chapter 11 (continued)
Stages of Learning of Mathematics (Smith and Rivera, 1991). Knowing these stages is important in assessing an individual's mathematical progress.
acquisition of skills
proficiency (fluency after adequate practice of acquired skills)
maintenance (need for periodic practice)
generalization (flexible application of skills)
adaptation (application of skills and concepts for "problem solving, reasoning, and decision making", p 417)
Assessment for specific developmental stages of learning (p 417)
Assessment at each stage should include many, if not all, of the concepts listed for that developmental stage.
Preschool and kindergarten
familiarity with number concepts
counting skills
appreciation of size and shape
vocabulary (more, less, equal, half)
sequencing
introduction to time and money concepts
introduction to addition and subtraction concepts
Early elementary school
mastery of addition and subtraction skills
attention to mathematical signs
graphomotor skill at arranging numbers in columns
understanding place value
understanding regrouping
introduction to the concepts of multiplication in third grade
estimation skills
Need to assess:
conceptual understanding
retrieval of facts and procedures
application of procedures
Late elementary and middle school
automatizing math facts
increasing skills with multiplication and long division
multistep problems
fractions, decimals, percentages
verbal and graphic representations/explanations of all the above
greater understanding of solving word problems
how many steps are necessary
what is asked for, what is not relevant
how does one do the calculation
how much does the student rely on mental arithmetic
rounding off numbers
increasing awareness and mastery of geometric concepts
students need to "go beyond the calculations of early elementary school and to operate on a more symbolic and abstract level" (p 421)
experience with calculators and computers
Secondary school
algebra, trigonometry, calculus require abstract symbolic thinking
specialized vocabulary
knowledge of and retrieval of formulas
ability to transition between decimals, fractions, percentages
graphing
plotting equations
Is a solid conceptual base present?
Is retrieval of math facts fluent?
application of conceptual math to everyday problems
statistics and data collection
What would an accurate assessment contain?
Management for specific neurodevelopmental dysfunctions (pp 427-430)
Review these (we've already discussed many of these multiple times)
Attention deficits
Spatial ordering deficits
Sequential ordering weaknesses
Memory dysfunctions
Language disability
Higher cognitive weaknesses
Graphomotor dysfunction
Main ideas
Assessment of mathematics strengths and weaknesses must include a review of all concepts that should be acquired at each developmental stage of mathematics learning.
Because math proficiency builds on previously learned skills, weaknesses can develop at later stages because of inadequate acquisition of skills from previous developmental stages.
Proficiency is a stage of learning of mathematics which demands fluency. Practice is also required.
Review how neurodevelopmental dysfunctions influence each stage of mathematics learning.
Questions
List the different stages of learning any math skill (p 417). Are all math skills learned using these criteria? Explain.
If an individual in college is math-phobic, but wants to improve, explain how you would go about assisting this individual in achieving success in acquisition of math skills.
What types of information do the different math assessments that we did in class (Math Fluency, Applied Problems, Computation) give to the person analyzing the testing results?
Why is math fluency stressed in elementary school? Do you think that an individual can be strong in mathematics if their math fluency is below grade level? Explain.